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Intermediate filaments are one of the key components of the cytoskeleton in eukaryotic cells,and their mechanical properties are found to be equally important for physiological function and disease.While the mechanical properties of single full length filaments have been studied,how the mechanical properties of crosslinks affect the mechanical property of the intermediate filament network is not well understood.This paper applies a mesoscopic model of the intermediate network with varied crosslink strengths to investigate its failure mechanism under the extreme mechanical loading.It finds that relatively weaker crosslinks lead to a more flaw tolerant intermediate filament network that is also 23%stronger than the one with strong crosslinks.These findings suggest that the mechanical properties of interfacial components are critical for bioinspired designs which provide intriguing mechanical properties.
Intermediate filaments are one of the key components of the cytoskeleton in eukaryotic cells, and their mechanical properties are found to be equally important for physiological function and disease. Whilst the mechanical properties of single full length filaments have been studied, how the mechanical properties of crosslinks affect the mechanical property of the mechanical property of the paper applies a mesoscopic model of the intermediate network with varied crosslink strengths to investigate its failure mechanism under the extreme mechanical loading. It finds that relatively weaker crosslinks lead to a more flaw due to 23% of stronger than the one with strong crosslinks.These findings suggest that the mechanical properties of interfacial components are critical for bioinspired designs which provide intriguing mechanical properties.